Manufacturer Part Number
MD1820K6-G
Manufacturer
Microchip Technology
Introduction
The MD1820K6-G is a high-performance, half-bridge gate driver IC from Microchip Technology. It is designed to provide efficient and reliable control for switching N-Channel and P-Channel MOSFET power devices in a wide range of power management applications.
Product Features and Performance
4 independent gate driver channels
Supports N-Channel and P-Channel MOSFET devices
Wide supply voltage range of 5V to 10V
Logic input voltage range of 0.3V to 1.7V
Peak output current of 2A (source and sink)
Fast rise and fall times of 7ns
Operating temperature range of -20°C to 125°C
Small 16-VFQFN exposed pad package
Product Advantages
High-efficiency power delivery with low conduction losses
Robust and reliable operation in harsh environments
Compact and space-saving design
Versatile configuration options for diverse applications
Key Reasons to Choose This Product
Optimized for high-performance power management systems
Excellent thermal management and power dissipation
Seamless integration with a wide range of power devices
Cost-effective solution for cost-sensitive applications
Quality and Safety Features
Rigorously tested and certified for quality and reliability
Overcurrent, undervoltage, and thermal protection features
Compliant with safety standards and regulations
Compatibility
The MD1820K6-G is compatible with a wide range of N-Channel and P-Channel MOSFET power devices, making it suitable for various power management applications.
Application Areas
Switch-mode power supplies (SMPS)
Motor drives and control systems
Inverters and converters
Industrial automation and control
Automotive electronics
Renewable energy systems
Product Lifecycle
The MD1820K6-G is an active product, and Microchip Technology continues to support and manufacture this model. There are no immediate plans for discontinuation. However, customers are advised to check with our website's sales team for the latest product information and availability of any equivalent or alternative models.